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🎯 Task-Driven Autonomous Agent System

📑 Overview

Task-Driven Autonomous Agent System using GPT-4, pinecone vector search, and the LangChain framework.

This experimental task-driven autonomous agent system is a cutting-edge AI-powered solution that leverages GPT-4, Pinecone vector search, and the LangChain framework to efficiently complete, generate, and prioritize tasks, while also providing interfaces for code, source control, file systems, documentation, and more.

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Brief Description of Agents

  • 📋 Task Manager Agent: Responsible for generating, managing, and prioritizing tasks in the task list.
  • 🏃 Task Executor Agent: Processes and completes tasks using GPT-4 and the LangChain framework.
  • 🧠 Memory Manager Agent: Manages memory storage of the system – short-term and long-term memory.
  • ⚙️ Execution Context Agent: Handles external execution environments – file systems, APIs, unit tests.
  • 🔒 Security and Safety Agent: Monitors and filtering throughout the process ensuring safe operation.

Recent advancements in AI have shown that models can do more with memory. Memory-augmented neural networks can effectively store and retrieve information, leading to significant improvements in performance. At the same time, exploring the concept of interfaces and providers can help us create more adaptable and efficient AI systems. One example is the LangChain framework, which provides a flexible and extensible interface for natural language processing tasks. See the presentation at https://gamma.app/public/TaskDriven-Autonomous-Agent-System-m400jx4xqa22fcp.

🔄 System Operation

The system operates in the following order:

  1. Task Manager Agent generates and prioritizes tasks in the task list.
  2. Task Executor Agent processes the task at the front of the task list.
  3. Memory Manager Agent provides necessary memory and context for task execution.
  4. Execution Context Agent interfaces with external environments to fetch data or execute tasks as needed.
  5. Task Executor Agent completes tasks, storing the results, and updates the Memory Manager Agent.
  6. Task Manager Agent generates tasks based on the completed task result and reprioritizes the task list.
  7. Security and Safety Agent monitors and acts to maintain ethical and safety standards.

🏗️ System Architecture

High level description of the entire system, followed by details about the purpose of each of agents.

📝 Pseudocode of Task-Driven Autonomous Agent System

By using this pseudocode, each agent can share an understanding of the entire system operation, allowing them to perform their respective tasks effectively and with greater focus.

# Pseudocode for the Task-Driven Autonomous Agent System

# Initialize and configure all agents
task_manager_agent = TaskManagerAgent()
task_executor_agent = TaskExecutorAgent()
memory_manager_agent = MemoryManagerAgent()
execution_context_agent = ExecutionContextAgent()
security_safety_agent = SecuritySafetyAgent()

# Main loop for the system operation
while True:

    # Task Manager Agent generates and prioritizes tasks
    task_manager_agent.generate_and_prioritize_tasks()

    # Task Executor Agent processes the task at the front of the task list
    current_task = task_manager_agent.get_next_task()
    task_executor_agent.process_task(current_task)

    # Memory Manager Agent provides necessary memory and context for task execution
    memory_context = memory_manager_agent.get_memory_context(current_task)
    task_executor_agent.set_memory_context(memory_context)

    # Execution Context Agent interfaces with external environments
    execution_context = execution_context_agent.get_execution_context(current_task)
    task_executor_agent.set_execution_context(execution_context)

    # Task Executor Agent completes the task, stores the result in Pinecone, and updates the Memory Manager Agent
    task_result = task_executor_agent.complete_task(current_task)
    memory_manager_agent.store_task_result(current_task, task_result)

    # Task Manager Agent generates new tasks based on the completed task result and reprioritizes the task list
    new_tasks = task_manager_agent.generate_new_tasks(current_task, task_result)
    task_manager_agent.add_and_prioritize_tasks(new_tasks)

    # Security and Safety Agent monitors and filters content throughout the process
    security_safety_agent.monitor_and_filter_content(current_task, task_result)

    # Check for system termination conditions, such as all tasks completed or a specific goal reached
    if system_termination_condition():
        break

The system consists of the following agents and components:

📋 Task Manager Agent

The Task Manager Agent maintains the task list, generates new tasks based on completed results, and prioritizes tasks in real-time.

Initialization of Task Manager Agent

In order to enable the Task Manager Agent to perform its duties effectively in the proposed architecture and examples, the system message should contain the following components:

  1. Task ID: A unique identifier for each task in the system, which can be used to track the progress, completion status, and dependencies of tasks.

  2. Task Type: A label or category that indicates the nature of the task, such as "analysis", "implementation", "testing", or "deployment". This information can be used by the Task Manager Agent to prioritize tasks based on their types and dependencies.

  3. Task Description: A detailed description of the task, including the input requirements, expected output, and any constraints or limitations. The Task Manager Agent can use this information to break down complex tasks into smaller, manageable subtasks.

  4. Task Dependencies: A list of other tasks or subtasks that must be completed before the current task can be executed. This information helps the Task Manager Agent manage task sequencing and scheduling.

  5. Task Priority: An assigned priority level for the task, which can be used by the Task Manager Agent to sort tasks in the task list and allocate resources accordingly.

  6. Task Status: The current status of the task, such as "pending", "in progress", "completed", or "failed". The Task Manager Agent uses this information to monitor task progress and update the task list in real-time.

  7. Task Deadline: An optional deadline for task completion, which can be used by the Task Manager Agent to prioritize time-sensitive tasks.

  8. Task Owner: An optional field indicating the responsible party or team for the task, which can be useful in multi-agent or multi-team environments.

  9. Task Metadata: Additional metadata related to the task, such as associated project, tags, or context information. This data can be used by the Task Manager Agent to filter, sort, or group tasks based on specific criteria.

A sample system message for the Task Manager Agent could look like

{
  "task_id": "t123",
  "task_type": "analysis",
  "task_description": "Analyze the Sentry stack trace and identify the issue in the production system",
  "task_dependencies": [],
  "task_priority": "high",
  "task_status": "pending",
  "task_deadline": "2023-01-01T00:00:00Z",
  "task_owner": "team-abc",
  "task_metadata": {
    "project": "project-xyz",
    "tags": ["production", "sentry", "error"],
    "context": {
      "sentry_stack_trace": "<stack_trace_data_here>",
      "github_repository": "https://github.com/user/repo"
    }
  }
}

By crafting system messages with these components, the Task Manager Agent can effectively manage, prioritize, and schedule tasks in the proposed architecture and examples.

🏃 Task Executor Agent

The Task Executor Agent is responsible for completing tasks in the task list using GPT-4 and LangChain's capabilities.

Initialization of Task Executor Agent

In order to enable the Task Executor Agent to perform its duties effectively in the proposed architecture and examples, the system message should contain the following components:

  1. Task ID: A unique identifier for the task to be executed, which can be used to track progress, manage dependencies, and report completion status.

  2. Task Type: A label or category indicating the nature of the task, such as "analysis", "implementation", "testing", or "deployment". This information helps the Task Executor Agent to determine the appropriate execution strategy and resources.

  3. Task Description: A detailed description of the task, including the input requirements, expected output, and any constraints or limitations. This information allows the Task Executor Agent to understand the task's requirements and generate appropriate solutions.

  4. Task Dependencies: A list of other tasks or subtasks that must be completed before the current task can be executed. The Task Executor Agent can use this information to manage task sequencing and ensure that all necessary prerequisites are met before executing the task.

  5. Task Context: A collection of contextual information related to the task, such as associated project, environment variables, or external resources. This context helps the Task Executor Agent to access necessary data, interfaces, or execution environments for the task.

  6. Task Owner: An optional field indicating the responsible party or team for the task, which can be useful in multi-agent or multi-team environments for communication and collaboration.

  7. Task Metadata: Additional metadata related to the task, such as input data, output data, or any intermediate results. This data can be used by the Task Executor Agent to store, retrieve, or communicate task-related information.

A sample system message for the Task Executor Agent could look like

{
  "task_id": "t123",
  "task_type": "analysis",
  "task_description": "Analyze the Sentry stack trace and identify the issue in the production system",
  "task_dependencies": [],
  "task_context": {
    "project": "project-xyz",
    "environment_variables": {
      "SENTRY_API_KEY": "<sentry_api_key>",
      "GITHUB_API_KEY": "<github_api_key>"
    },
    "external_resources": {
      "sentry_stack_trace": "<stack_trace_data_here>",
      "github_repository": "https://github.com/user/repo"
    }
  },
  "task_owner": "team-abc",
  "task_metadata": {
    "input_data": "<input_data_here>",
    "output_data": null,
    "intermediate_results": null
  }
}

By crafting system messages with these components, the Task Executor Agent can effectively execute tasks, manage dependencies, and generate appropriate solutions in the proposed architecture and examples.

🧠 Memory Manager Agent

The Memory Manager Agent manages the memory of the system, including short-term and long-term memory.

Initialization of Memory Manager Agent

In order to enable the Memory Manager Agent to perform its duties effectively in the proposed architecture and examples, the system message should contain the following components:

  1. Memory Action: An action indicating the operation to be performed by the Memory Manager Agent, such as "store", "retrieve", "update", or "delete".

  2. Memory Key: A unique identifier for the memory item, which can be used to store, retrieve, update, or delete the associated data in the memory storage system (e.g., Pinecone).

  3. Memory Data: The data associated with the memory item, such as task results, intermediate progress, or contextual information. This data is used by the Memory Manager Agent to store or update the memory item in the memory storage system.

  4. Memory Metadata: Additional metadata related to the memory item, such as data type, access permissions, or expiration time. This information helps the Memory Manager Agent to manage memory items and enforce access controls or data retention policies.

  5. Memory Query: An optional query used to retrieve memory items based on specific criteria, such as matching metadata, similarity to other items, or proximity in a vector space. This query is used by the Memory Manager Agent when performing retrieval operations.

A sample system message for the Memory Manager Agent could look like

{
  "memory_action": "store",
  "memory_key": "m123",
  "memory_data": {
    "task_id": "t123",
    "task_result": "<task_result_data_here>"
  },
  "memory_metadata": {
    "data_type": "task_result",
    "access_permissions": {
      "read": ["team-abc"],
      "write": ["team-abc"]
    },
    "expiration_time": "2023-01-01T00:00:00Z"
  },
  "memory_query": null
}

By crafting system messages with these components, the Memory Manager Agent can effectively manage memory items, provide necessary memory and context for task execution, and enforce access controls and data retention policies in the proposed architecture and examples.

⚙️ Execution Context Agent

The Execution Context Agent interfaces with external execution environments such as file systems, APIs, and unit test frameworks.

Initialization of Execution Context Agent

In order to enable the Execution Context Agent to perform its duties effectively in the proposed architecture and examples, the system message should contain the following components:

  1. Context Action: An action indicating the operation to be performed by the Execution Context Agent, such as "read", "write", "execute", or "interact".

  2. Context Type: A label or category indicating the type of execution context, such as "file_system", "api", "unit_test_framework", or "external_resource". This information helps the Execution Context Agent determine the appropriate strategy and resources for interacting with the external environment.

  3. Context Target: The target resource or component that the Execution Context Agent should interact with, such as a file path, API endpoint, or external service. This information is used by the Execution Context Agent to establish a connection with the target and perform the requested operation.

  4. Context Parameters: A set of parameters or configuration options related to the context action, such as input data, output format, or authentication credentials. These parameters are used by the Execution Context Agent to customize the interaction and ensure the desired outcome is achieved.

  5. Context Metadata: Additional metadata related to the execution context, such as access permissions, rate limits, or retry policies. This information helps the Execution Context Agent manage interactions with external environments and enforce operational constraints or policies.

A sample system message for the Execution Context Agent could look like

{
  "context_action": "read",
  "context_type": "file_system",
  "context_target": "/path/to/your/application/codebase/file.js",
  "context_parameters": {
    "encoding": "utf-8"
  },
  "context_metadata": {
    "access_permissions": {
      "read": ["team-abc"],
      "write": ["team-abc"]
    },
    "rate_limits": {
      "requests_per_second": 10
    },
    "retry_policy": {
      "max_attempts": 3,
      "backoff_factor": 2
    }
  }
}

By crafting system messages with these components, the Execution Context Agent can effectively interface with external execution environments, such as file systems, APIs, and unit test frameworks, and manage operations according to the architecture and proposed examples.

🔒 Security and Safety Agent

The Security and Safety Agent ensures that the input and output generated by the system adhere to ethical and safety guidelines.

Initialization of Security and Safety Agent

In order to enable the Security and Safety Agent to perform its duties effectively in the proposed architecture and examples, the system message should contain the following components:

  1. Safety Action: An action indicating the operation to be performed by the Security and Safety Agent, such as "monitor", "validate", "filter", or "enforce".

  2. Safety Target: The target resource or component that the Security and Safety Agent should interact with, such as a task result, generated code, or external data. This information is used by the Security and Safety Agent to apply safety checks and ensure compliance with ethical guidelines and security requirements.

  3. Safety Rules: A set of rules or policies that define the expected behavior, constraints, and limits of the system in terms of ethics, safety, and security. These rules are used by the Security and Safety Agent to validate, filter, or enforce compliance with the desired standards.

  4. Safety Parameters: A set of parameters or configuration options related to the safety action, such as input data, output format, or validation options. These parameters are used by the Security and Safety Agent to customize the safety checks and ensure the desired level of compliance is achieved.

  5. Safety Metadata: Additional metadata related to the safety and security aspects of the system, such as access permissions, audit logs, or incident reports. This information helps the Security and Safety Agent manage safety and security concerns and enforce operational constraints or policies.

A sample system message for the Security and Safety Agent could look like

{
  "safety_action": "validate",
  "safety_target": {
    "task_id": "t123",
    "task_result": "<task_result_data_here>"
  },
  "safety_rules": [
    {
      "rule_id": "r1",
      "rule_description": "Ensure no personally identifiable information (PII) is exposed",
      "rule_type": "data_privacy"
    },
    {
      "rule_id": "r2",
      "rule_description": "Ensure compliance with ethical guidelines",
      "rule_type": "ethics"
    }
  ],
  "safety_parameters": {
    "validation_options": {
      "strict_mode": true
    }
  },
  "safety_metadata": {
    "access_permissions": {
      "read": ["team-abc"],
      "write": ["team-abc"]
    },
    "audit_logs": {
      "enabled": true
    },
    "incident_reports": {
      "alert_level": "high"
    }
  }
}

By crafting system messages with these components, the Security and Safety Agent can effectively monitor, validate, filter, and enforce compliance with ethical guidelines and security requirements in the proposed architecture and examples.

🌟 Additional future improvements

The proposed system can be further improved by integrating additional automated anomaly reporting, implementing task sequencing and parallel tasks, generating interim milestones, and incorporating real-time priority updates.

🏁 Conclusion

The Task-Driven Autonomous Agent System leverages GPT-4, Pinecone vector search, and the LangChain framework to efficiently complete, generate, and prioritize tasks. The modular, flexible, and scalable architecture ensures that the system can handle a wide range of complex tasks and adapt to future improvements. The incorporation of safety and ethical guidelines ensures that the system operates within acceptable constraints and does not cause unintended consequences.

📝 Additional Agent Pseudocode

📋 Task Manager Agent

# Pseudocode for the Task Manager Agent

class TaskManagerAgent:
    def __init__(self):
        self.task_list = []

    def generate_and_prioritize_tasks(self):
        # Generate new tasks based on completed task results or external triggers
        new_tasks = self.generate_new_tasks()

        # Add new tasks to the task list
        self.add_and_prioritize_tasks(new_tasks)

    def generate_new_tasks(self, completed_task=None, completed_task_result=None):
        # Generate new tasks based on the completed task result
        # or external triggers, such as user input or system events
        new_tasks = []

        if completed_task and completed_task_result:
            # Analyze the completed task result and generate new tasks accordingly
            new_tasks = self.analyze_completed_task(completed_task, completed_task_result)
        else:
            # Generate new tasks based on external triggers
            new_tasks = self.generate_tasks_from_external_triggers()

        return new_tasks

    def add_and_prioritize_tasks(self, new_tasks):
        # Add new tasks to the task list
        self.task_list.extend(new_tasks)

        # Prioritize tasks based on their priority level, dependencies, and deadlines
        self.prioritize_tasks()

    def prioritize_tasks(self):
        # Sort the task list based on task priority, dependencies, and deadlines
        self.task_list.sort(key=lambda task: (task['task_priority'], task['task_dependencies'], task['task_deadline']))

    def get_next_task(self):
        # Get the task at the front of the task list
        next_task = self.task_list.pop(0)
        return next_task

    def analyze_completed_task(self, completed_task, completed_task_result):
        # Analyze the completed task result and generate new tasks accordingly
        # This is a placeholder for the actual analysis logic
        new_tasks = []
        return new_tasks

    def generate_tasks_from_external_triggers(self):
        # Generate new tasks based on external triggers, such as user input or system events
        # This is a placeholder for the actual task generation logic
        new_tasks = []
        return new_tasks

# Initialize and configure the Task Manager Agent
task_manager_agent = TaskManagerAgent()

# Main loop for the Task Manager Agent operation
while True:
    # Generate and prioritize tasks
    task_manager_agent.generate_and_prioritize_tasks()

    # Process the task at the front of the task list
    current_task = task_manager_agent.get_next_task()

    # Perform the necessary actions for the current task
    # This is a placeholder for the actual task execution logic

    # Check for system termination conditions, such as all tasks completed or a specific goal reached
    if system_termination_condition():
        break

The Task Manager Agent should be able to generate, prioritize, and schedule tasks in the proposed architecture based on this pseudocode.

🏃 Task Executor Agent

# Pseudocode for the Task Executor Agent

class TaskExecutorAgent:
    def __init__(self):
        self.memory_context = None
        self.execution_context = None

    def process_task(self, task):
        self.current_task = task

    def set_memory_context(self, memory_context):
        self.memory_context = memory_context

    def set_execution_context(self, execution_context):
        self.execution_context = execution_context

    def complete_task(self, task):
        if task.task_type == "analysis":
            result = self.analyze_task(task)
        elif task.task_type == "implementation":
            result = self.implement_task(task)
        elif task.task_type == "testing":
            result = self.test_task(task)
        elif task.task_type == "deployment":
            result = self.deploy_task(task)
        else:
            raise ValueError(f"Unknown task type: {task.task_type}")

        return result

    def analyze_task(self, task):
        # Use GPT-4 and LangChain to analyze the task description and requirements
        analysis_result = analyze_with_gpt4_and_langchain(task.task_description)

        # Incorporate memory context and execution context in the analysis
        analysis_result = self.integrate_memory_and_execution_context(analysis_result, self.memory_context, self.execution_context)

        # Update memory manager with the analysis result
        self.memory_context.update_memory(task.task_id, "analysis_result", analysis_result)

        return analysis_result

    def implement_task(self, task):
        # Use GPT-4 and LangChain to generate implementation code or configuration changes
        implementation_result = implement_with_gpt4_and_langchain(task.task_description)

        # Incorporate memory context and execution context in the implementation
        implementation_result = self.integrate_memory_and_execution_context(implementation_result, self.memory_context, self.execution_context)

        # Update memory manager with the implementation result
        self.memory_context.update_memory(task.task_id, "implementation_result", implementation_result)

        return implementation_result

    def test_task(self, task):
        # Use GPT-4 and LangChain to generate test cases, and execute tests
        test_result = test_with_gpt4_and_langchain(task.task_description)

        # Incorporate memory context and execution context in the testing
        test_result = self.integrate_memory_and_execution_context(test_result, self.memory_context, self.execution_context)

        # Update memory manager with the test result
        self.memory_context.update_memory(task.task_id, "test_result", test_result)

        return test_result

    def deploy_task(self, task):
        # Use GPT-4 and LangChain to generate deployment steps and execute deployment
        deployment_result = deploy_with_gpt4_and_langchain(task.task_description)

        # Incorporate memory context and execution context in the deployment
        deployment_result = self.integrate_memory_and_execution_context(deployment_result, self.memory_context, self.execution_context)

        # Update memory manager with the deployment result
        self.memory_context.update_memory(task.task_id, "deployment_result", deployment_result)

        return deployment_result

    def integrate_memory_and_execution_context(self, result, memory_context, execution_context):
        # Update the result with relevant information from the memory and execution context
        result_with_context = update_result_with_context(result, memory_context, execution_context)

        return result_with_context

The agent processes tasks based on their type, using GPT-4 and LangChain to analyze, implement, test, and deploy tasks. The agent integrates the memory context and execution context throughout the process, ensuring that the task execution is informed by relevant information and resources. The memory manager is updated with the results at each stage, providing a record of the task progress and outcomes.

🧠 Memory Manager Agent

# Pseudocode for the Memory Manager Agent

# Initialize and configure the Memory Manager Agent
memory_manager_agent = MemoryManagerAgent()
memory_storage = PineconeMemoryStorage()

# Main loop for the Memory Manager Agent operation
while True:

    # Receive a system message with memory-related instructions
    system_message = receive_system_message()

    # Extract necessary information from the system message
    memory_action = system_message["memory_action"]
    memory_key = system_message["memory_key"]
    memory_data = system_message["memory_data"]
    memory_metadata = system_message["memory_metadata"]
    memory_query = system_message["memory_query"]

    # Perform the requested memory action
    if memory_action == "store":
        memory_storage.store(memory_key, memory_data, memory_metadata)

    elif memory_action == "retrieve":
        if memory_query is not None:
            # Retrieve memory items based on the query
            memory_items = memory_storage.retrieve_by_query(memory_query)
        else:
            # Retrieve a single memory item by key
            memory_item = memory_storage.retrieve(memory_key)

    elif memory_action == "update":
        memory_storage.update(memory_key, memory_data, memory_metadata)

    elif memory_action == "delete":
        memory_storage.delete(memory_key)

    # Send a response with the result of the memory action
    send_response(memory_action, memory_key, memory_item)

    # Check for agent termination conditions, such as system shutdown or completion of all tasks
    if agent_termination_condition():
        break

The Memory Manager Agent will operate, manage memory items, and interact with the memory storage system (e.g., Pinecone). This will enable it to effectively provide necessary memory and context for task execution, store and retrieve task results, and enforce access controls and data retention policies in the proposed architecture and examples.

⚙️ Execution Context Agent

# Pseudocode for the Execution Context Agent

class ExecutionContextAgent:

    def __init__(self):
        self.task_id = None
        self.context_action = None
        self.context_type = None
        self.context_target = None
        self.context_parameters = None
        self.context_metadata = None

    def set_system_message(self, system_message):
        self.task_id = system_message["task_id"]
        self.context_action = system_message["context_action"]
        self.context_type = system_message["context_type"]
        self.context_target = system_message["context_target"]
        self.context_parameters = system_message["context_parameters"]
        self.context_metadata = system_message["context_metadata"]

    def execute(self):
        if self.context_type == "file_system":
            self._execute_file_system()
        elif self.context_type == "api":
            self._execute_api()
        elif self.context_type == "unit_test_framework":
            self._execute_unit_test_framework()
        elif self.context_type == "external_resource":
            self._execute_external_resource()
        else:
            raise ValueError("Invalid context type")

    def _execute_file_system(self):
        if self.context_action == "read":
            file_path = self.context_target
            encoding = self.context_parameters.get("encoding", "utf-8")
            with open(file_path, "r", encoding=encoding) as file:
                content = file.read()
            return content
        elif self.context_action == "write":
            file_path = self.context_target
            content = self.context_parameters["content"]
            encoding = self.context_parameters.get("encoding", "utf-8")
            with open(file_path, "w", encoding=encoding) as file:
                file.write(content)
        else:
            raise ValueError("Invalid context action for file_system")

    def _execute_api(self):
        if self.context_action == "fetch_data":
            response = requests.get(
                self.context_target,
                headers=self.context_parameters.get("headers", {}),
                params=self.context_parameters.get("params", {}),
            )
            response.raise_for_status()
            return response.json()
        elif self.context_action == "send_data":
            response = requests.post(
                self.context_target,
                headers=self.context_parameters.get("headers", {}),
                json=self.context_parameters.get("data", {}),
            )
            response.raise_for_status()
            return response.json()
        else:
            raise ValueError("Invalid context action for API")

    def _execute_unit_test_framework(self):
        # Implement the specific unit test framework execution logic here
        pass

    def _execute_external_resource(self):
        if self.context_type == "github":
            if self.context_action == "create_pull_request":
                title = self.context_parameters["title"]
                body = self.context_parameters["body"]
                head = self.context_parameters["head"]
                base = self.context_parameters["base"]
                repo_url = self.context_target

                pr = github_api_wrapper.create_pull_request(repo_url, title, body, head, base)
                return pr
            else:
                raise ValueError("Invalid context action for GitHub")
        else:
            raise ValueError("Invalid external_resource type")

# Example usage:
execution_context_agent = ExecutionContextAgent()
system_message = {
    "task_id": "t123",
    "context_action": "read",
    "context_type": "file_system",
    "context_target": "/path/to/your/application/codebase/file.js",
    "context_parameters": {
        "encoding": "utf-8"
    },
    "context_metadata": {
        "access_permissions": {
            "read": ["team-abc"],
            "write": ["team-abc"]
        },
        "rate_limits": {
            "requests_per_second": 10
        },
        "retry_policy": {
            "max_attempts": 3,
            "backoff_factor": 2
        }
    }
}
execution_context_agent.set_system_message(system_message)
result = execution_context_agent.execute()

The agent will operate, allowing it to effectively interface with external execution environments, such as file systems, APIs, and unit test frameworks, and manage operations according to the architecture and proposed examples.

🔒 Security and Safety Agent

# Pseudocode for the SecuritySafetyAgent

class SecuritySafetyAgent:
    def __init__(self):
        self.safety_rules = self.load_safety_rules()

    def load_safety_rules(self):
        # Load safety rules from a predefined source, e.g., a JSON file, a database, etc.
        safety_rules = [
            # Example rules
            {"rule_id": "r1", "rule_description": "Ensure no personally identifiable information (PII) is exposed", "rule_type": "data_privacy"},
            {"rule_id": "r2", "rule_description": "Ensure compliance with ethical guidelines", "rule_type": "ethics"}
        ]
        return safety_rules

    def monitor_and_filter_content(self, current_task, task_result):
        # Apply safety rules on the input and output of the current task
        for rule in self.safety_rules:
            if rule["rule_type"] == "data_privacy":
                self.ensure_data_privacy(current_task, task_result)
            elif rule["rule_type"] == "ethics":
                self.ensure_ethical_compliance(current_task, task_result)

    def ensure_data_privacy(self, current_task, task_result):
        # Implement data privacy checks, such as redacting or anonymizing PII in the task_result
        # This could include checking for email addresses, phone numbers, names, etc.
        task_result = self.redact_pii(task_result)

    def ensure_ethical_compliance(self, current_task, task_result):
        # Implement ethical compliance checks, such as detecting and removing harmful content, biases, or unethical behavior
        # This could include checking for offensive language, fairness, transparency, etc.
        task_result = self.remove_unethical_content(task_result)

    def redact_pii(self, task_result):
        # Implement PII redaction logic, e.g., replacing detected PII with placeholders or anonymized data
        # This is just a simple example, a more sophisticated implementation is needed for real-world use cases
        redacted_task_result = task_result.replace("<email>", "[REDACTED_EMAIL]")
        return redacted_task_result

    def remove_unethical_content(self, task_result):
        # Implement unethical content removal logic, e.g., filtering out offensive language, ensuring fairness, etc.
        # This is just a simple example, a more sophisticated implementation is needed for real-world use cases
        cleaned_task_result = task_result.replace("<offensive_term>", "[REMOVED]")
        return cleaned_task_result

# Example usage of the SecuritySafetyAgent
security_safety_agent = SecuritySafetyAgent()
security_safety_agent.monitor_and_filter_content(current_task, task_result)

By using this pseudocode within the system message of the SecuritySafetyAgent, it will have a better understanding of how to monitor and filter content, ensuring that the input and output generated by the system adhere to ethical and safety guidelines.

Examples of the system in action

🎛️ Example of task execution (add chat box)

Task: "Add a chat box to my application and the chat box should be used to be able to interact with our customer services agents."

Task execution

When you provide the task to the system, it would progress through several steps involving the different agents to complete it. Here's an outline of the process:

  1. Task Manager Agent: The Task Manager Agent receives the new task, which is to add a chat box to your application for interaction with customer service agents. It adds this task to the task list and prioritizes it according to the current list of tasks.

  2. Task Executor Agent: The Task Executor Agent processes the task at the front of the task list, which is the chat box implementation task. It would use GPT-4 and the LangChain framework to understand the requirements and generate an implementation plan, such as determining the necessary UI components, backend services, and communication protocols for the chat box.

  3. Memory Manager Agent: The Memory Manager Agent provides the necessary memory and context for the task execution. It might retrieve any relevant information stored in Pinecone, such as previous interactions with your application, existing customer service channels, or any prior chat box implementations.

  4. Execution Context Agent: The Execution Context Agent interfaces with the external execution environments, such as your application's codebase, APIs, and any required libraries or frameworks. It would access and manage the file system to read and modify the application's code, data, or configuration files, as well as interface with APIs to fetch data or trigger actions based on the task requirements.

  5. Task Executor Agent (Continued): With the necessary context, memory, and execution environment, the Task Executor Agent generates the appropriate code and configuration changes for implementing the chat box in your application. It might create new UI components, set up backend services, and establish communication protocols between the chat box and customer service agents.

  6. Security and Safety Agent: Throughout the process, the Security and Safety Agent monitors and filters the content generated by the system to ensure that the implementation adheres to ethical and safety guidelines, as well as adhering to any data privacy and security measures necessary for protecting sensitive information.

  7. Task Manager Agent (Continued): Once the chat box implementation task is completed, the Task Manager Agent generates new tasks based on the completed task result, such as testing the chat box functionality or integrating it with existing customer service tools. These new tasks are prioritized and added to the task list.

The system iteratively works through these steps until the chat box is successfully implemented in your application and all follow-up tasks are completed.

🔧 More advanced example of task execution (provide fix for problem in production)

Task: "Use the output from a Sentry stack trace from a production system where of an application experienced an unexpected error and provide a fix for the issue as a GitHub pull request."

Task execution

When you provide the task to analyze a Sentry stack trace from a production system, identify the issue, propose a fix, add test cases, verify the fix, and create a GitHub pull request, the system would progress through several steps involving the different agents to complete it. Here's an outline of the process:

  1. Task Manager Agent: The Task Manager Agent receives the new task and breaks it down into subtasks, such as analyzing the stack trace, identifying the issue, proposing a fix, creating test cases, verifying the fix, and creating a GitHub pull request. It adds these subtasks to the task list and prioritizes them according to the current list of tasks.

  2. Task Executor Agent: The Task Executor Agent processes the subtasks in the task list one by one, using GPT-4 and the LangChain framework. For example, it would first analyze the Sentry stack trace to understand the error, then reason about the issue and propose a fix for it.

  3. Memory Manager Agent: The Memory Manager Agent provides the necessary memory and context for the task execution. It might retrieve any relevant information stored in Pinecone, such as previous error logs, similar issues in the past, or any related code changes.

  4. Execution Context Agent: The Execution Context Agent interfaces with the external execution environments, such as the application's codebase, APIs, and any required libraries or frameworks. It would access and manage the file system to read and modify the application's code, data, or configuration files, as well as interface with APIs to fetch data or trigger actions based on the task requirements.

  5. Task Executor Agent (Continued): With the necessary context, memory, and execution environment, the Task Executor Agent generates the appropriate code and configuration changes for the proposed fix. It would also create new test cases to cover the changes and verify that the fix will solve the identified problem. The system then reasons about why the change is sound, considering factors like code quality, maintainability, and performance.

  6. Security and Safety Agent: Throughout the process, the Security and Safety Agent monitors and filters the content generated by the system to ensure that the implementation adheres to ethical and safety guidelines, as well as adhering to any data privacy and security measures necessary for protecting sensitive information.

  7. Task Executor Agent (Final Step): Once the fix is verified and the system has reasoned about the soundness of the change, the Task Executor Agent creates a GitHub pull request with the proposed changes, providing a detailed description of the issue, the fix, test cases, and the reasoning behind the change.

  8. Task Manager Agent (Continued): After the GitHub pull request is created, the Task Manager Agent generates new tasks based on the completed task result, such as monitoring the pull request for reviews, addressing feedback, and merging the changes after approval. These new tasks are prioritized and added to the task list.

The system iteratively works through these steps until the issue is resolved, the fix is verified, and the GitHub pull request is created and monitored for completion.

⚠️ Disclaimers

This is a work in progress and is not intended to be a complete or accurate representation of the system. It is intended to be a high-level overview of the system's capabilities and how it would work in practice. The system is still in the early stages of development and is not yet ready for production use.

🤝 Contributions

I'm looking for people who are interested in working on a system capable of executing and iterating on tasks such as these. If anyone is interested in contributing to the development of the system, please reach out to me.